Part 15
Men of the Cumberland type are to be found in all ages and in history of all nations. Men in whom the beast is barely under the formal restraint of ordered society, men in whom a savage sensuality is accompanied by a savage cruelty, men who take a hideous physical delight in bloodshed, darken the pages of all chronicles. It would be unjust to the memory of Cumberland to say that in his own peculiar line he had many, if any, superiors; that many men are more worthy of the fame which he won. To be remembered with a just loathing as a man by whom brutalities of all kinds were displayed, almost to the point of madness, is not the kind of memory most men desire; it is probably not the kind of memory that even Cumberland himself desired to leave behind him. But if he had cherished the ambition of handing down his name to other times, "linked with one virtue and a thousand crimes"; if he had deliberately proposed to force himself upon the attention of posterity as a mere abominable monster, he could hardly have acted with more persistent determination toward such a purpose. In Scotland, for long years after he was dead and dust, the mention of his name was like a curse; and even in England, where the debt due to his courage counted for much, no one has been found to palliate his conduct or to whitewash his infamy. As "Butcher" Cumberland he was known while he lived; as Butcher Cumberland he will be remembered so long as men remember the "Forty-five" and the horrors after Culloden fight. Some of those horrors no doubt were due to the wild fury of revenge that always follows a wild fear. The invasion of the young Stuart had struck terror; the revenge for that terror was bloodily taken.
Everything contributed to make Culloden fatal to the fortunes of the Pretender. The discouragement of some of the clans, the disaffection of others, the wholesale desertions which had thinned the ranks of the rebel army, the Prince's sullen distrust of his advisers, the position of the battle-field, the bitter wintry weather, which drove a blinding hail and snow into the eyes of the Highlanders--all these were so many elements of danger that would have seriously handicapped a better conditioned army than that which Charles Stuart was able to oppose to Cumberland. But the Prince's army was not well conditioned: it was demoralized by retreat, hungry, ragged, dizzy with lack of sleep. Even the terrors of the desperate Highland attack were no longer so terrible to the English troops. Cumberland had taught his men, in order to counteract the defence which the target offered to the bodies of the Highlanders, to thrust with their bayonets in a slanting direction--not against the man immediately opposite to its point, but at the unguarded right side of the man attacking their comrade on the right.
After enduring for some time the terrible cannonade of the English, the battle began when the Macintoshes charged with all their old desperate valor upon the English. But the English were better prepared than before, and met the onslaught with such a volley as shattered the Highland attack and literally matted the ground with Highland bodies. Then the royal troops advanced, and drove the rebels in helpless rout before them. The fortunes of the fight might have gone very differently if all the Highlanders had been as true to their cause as those who formed this attacking right wing. "English gold and Scotch traitors," says an old ballad of another fight, "won," "but no Englishman." To no English gold can the defeat of Culloden be attributed, but unhappily Scotch treason played its part in the disaster.
The Macdonalds had been placed at the left wing of battle instead of at the right, which they considered to be their proper place. Furious at what they believed to be an insult, they took no part whatever in the fight after they had discharged a single volley, but stood and looked on in sullen apathy while the left wing and centre of the Prince's army were being whirled into space by the Royalist advance. The Duke of Perth appealed desperately and in vain to their hearts, reminded them of their old-time valor, and offered, if they would only follow his cry of "Claymore," to change his name and be henceforward called Macdonald. In vain Keppoch rushed forward almost alone, and met his death, moaning that the children of his tribe had deserted him. There are few things in history more tragic than the picture of that inert mass of moody Highlanders, frozen into traitors through an insane pride and savage jealousy, witnessing the ruin of their cause and the slaughter of their comrades unmoved, and listening impassively to the entreaties of the gallant Perth and the death groans of the heroic Keppoch. In a few minutes the battle was over, the rout was complete; the rebel army was in full retreat, with a third of its number lying on the field of battle; the Duke of Cumberland was master of the field, of all the Highland baggage and artillery, of fourteen stands, and more than two thousand muskets. Culloden was fought and won.
It is not necessary to believe the stories that have been told of Charles Stuart, attributing to him personal cowardice on the fatal day of Culloden. The evidence in favor of such stories is of the slightest; there is nothing in the Prince's earlier conduct to justify the accusation, and there is sufficient evidence in favor of the much more likely version, that Charles was with difficulty prevented from casting away his life in one desperate charge when the fortune of the day was decided. It is part of a prince's business to be brave, and if Charles Stuart had been lacking in that essential quality of sovereignty he could scarcely have concealed the want until the day of Culloden, or have inspired the clans with the personal enthusiasm which they so readily evinced for him. Through all those stormy and terrible days, over which poetry and romance have so often and so fondly lingered, the fugitive found that he had still in the season of his misfortunes friends as devoted as he had known in the hours of his triumph. His adventures in woman's dress, his escape from the English ship, the touching devotion of Flora Macdonald, the loyalty of Lochiel, the fidelity of Cluny Macpherson--all these things have been immortalized in a thousand tales and ballads, and will be remembered in the North Country as long as tales and ballads continue to charm. At last, at Lochnanuagh, the Prince embarked upon a French ship that had been sent for him, and early in October, 1746, he landed in Brittany.
FOOTNOTES:
[30] Sir John Cope, commander-in-chief of King George's forces.
BENJAMIN FRANKLIN EXPERIMENTS WITH ELECTRICITY
A.D. 1747
JOHN BIGELOW AND BENJAMIN FRANKLIN
It was not only by his demonstration that lightning is identical with electricity that Franklin did an important work in connection with electrical science. He is also entitled to great credit for the stimulus imparted by his experiments and writings to further discoveries in this field. Franklin was by far the most practical among the natural philosophers of his time; and the development of science in the knowledge and application of electricity has continued to reflect upon mankind his genius for the useful.
The ancients had no scientific acquaintance with electricity. The early Greeks, so far as known, observed but a single phenomenon in connection with it--the electrification of amber by friction. Aristotle and Pliny note the production of electricity by certain fishes, especially the torpedo, a ray possessing an electrical apparatus with which it kills or stuns its prey and defends itself against its enemies. Not before the sixteenth century of the Christian era was there any recorded scientific study of electrical phenomena. The early predecessors of Franklin, such as Gilbert, Boyle, and others, are considered to have created the science of electricity and magnetism. The invention of the Leyden jar or vial, in 1745, said to have been "hit upon by at least three persons working independently," was a very important advance.
The work of Franklin, following so soon upon the then latest step of progress in Europe, is best made known to the world through his own writings, particularly in the letters, selected by Bigelow, which appear in the present account of the philosopher's experiments.
While on a visit to Boston in 1746 Franklin witnessed some electrical experiments performed by a Mr. Spence, recently arrived from Scotland. Shortly after his return to Philadelphia the Library Company received from Mr. Collinson, of London, and a member of the Royal Society, a glass tube, with instructions for making experiments with it. With this tube Franklin began a course of experiments which resulted in discoveries which, humanly speaking, seem to be exerting a larger material influence upon the industries of the world than any other discovery of the human intellect. Dr. Stuber, then a resident of Philadelphia, and author of the first continuation of Franklin's _Life_, who seems to have enjoyed peculiar opportunities of obtaining full and authentic information upon the subject, gives us the following account of the observations which this letter brought for the first time to the notice of the world through Mr. Collinson.
"His observations," says Dr. Stuber, "he communicated, in a series of letters, to his friend Collinson, the first of which is dated March 28, 1747. In these he shows the power of points in drawing and throwing off the electrical matter which had hitherto escaped the notice of electricians. He also made the grand discovery of a plus and minus, or of a positive and negative, state of electricity. We give him the honor of this without hesitation; although the English have claimed it for their countryman, Dr. Watson. Watson's paper is dated January 21, 1748; Franklin's, July 11, 1747, several months prior. Shortly after Franklin, from his principles of the plus and minus state, explained in a satisfactory manner the phenomena of the Leyden vial, first observed by Mr. Cuneus, or by Professor Muschenbroeck, of Leyden, which had much perplexed philosophers. He showed clearly that when charged the bottle contained no more electricity than before, but that as much was taken from one side as was thrown on the other; and that to discharge it nothing was necessary but to produce a communication between the two sides, by which the equilibrium might be restored, and that then no sign of electricity would remain. He afterward demonstrated by experiments that the electricity did not reside in the coating, as had been supposed, but in the pores of the glass itself. After a vial was charged he removed the coating, and found that upon applying a new coating the shock might still be received. In the year 1749 he first suggested his idea of explaining the phenomena of thunder-gusts and of the aurora borealis upon electrical principles. He points out many particulars in which lightning and electricity agree, and he adduces many facts, and reasonings from facts, in support of his positions.
"In the same year he received the astonishingly bold and grand idea of ascertaining the truth of his doctrine by actually drawing down the lightning, by means of sharp-pointed iron rods raised into the region of the clouds. Even in this uncertain state his passion to be useful to mankind displayed itself in a powerful manner. Admitting the identity of electricity and lightning, and knowing the power of points in repelling bodies charged with electricity, and in conducting their fires silently and imperceptibly, he suggested the idea of securing houses, ships, etc., from being damaged by lightning, by erecting pointed rods that should rise some feet above the most elevated part, and descend some feet into the ground or water. The effect of these he concluded would be either to prevent a stroke by repelling the cloud beyond the striking distance, or by drawing off the electrical fire which it contained; or, if they could not effect this, they would at least conduct the electric matter to the earth without any injury to the building.
"It was not till the summer of 1752 that he was enabled to complete his grand and unparalleled discovery by experiment. The plan which he had originally proposed was to erect, on some high tower or other elevated place, a sentry-box, from which should rise a pointed iron rod, insulated by being fixed in a cake of resin. Electrified clouds passing over this would, he conceived, impart to it a portion of their electricity, which would be rendered evident to the senses by sparks being emitted when a key, the knuckle, or other conductor was presented to it. Philadelphia at this time afforded no opportunity of trying an experiment of this kind. While Franklin was waiting for the erection of a spire, it occurred to him that he might have more ready access to the region of clouds by means of a common kite. He prepared one by fastening two cross sticks to a silken handkerchief, which would not suffer so much from the rain as paper. To the upright stick was affixed an iron point. The string was, as usual, of hemp, except the lower end, which was silk. Where the hempen string terminated, a key was fastened. With this apparatus, on the appearance of a thunder-gust approaching he went out into the commons, accompanied by his son, to whom alone he communicated his intentions, well knowing the ridicule which, too generally for the interest of science, awaits unsuccessful experiments in philosophy. He placed himself under a shed, to avoid the rain; his kite was raised, a thunder-cloud passed over it, no sign of electricity appeared. He almost despaired of success, when suddenly he observed the loose fibres of his string to move toward an erect position. He now presented his knuckle to the key and received a strong spark. How exquisite must his sensations have been at this moment! On this experiment depended the fate of his theory. If he succeeded, his name would rank high among those who had improved science; if he failed, he must inevitably be subjected to the derision of mankind, or, what is worse, their pity, as a well-meaning man, but a weak, silly projector. The anxiety with which he looked for the result of his experiment may be easily conceived. Doubts and despair had begun to prevail, when the fact was ascertained, in so clear a manner that even the most incredulous could no longer withhold their assent. Repeated sparks were drawn from the key, a vial was charged, a shock given, and all the experiments made which are usually performed with electricity.
"About a month before this period some ingenious Frenchman had completed the discovery in the manner originally proposed by Dr. Franklin. The letters which he sent to Mr. Collinson, it is said, were refused a place in the _Transactions_ of the Royal Society of London. However this may be, Collinson published them in a separate volume, under the title of _New Experiments and Observations on Electricity, made at Philadelphia, in America_. They were read with avidity, and soon translated into different languages. A very incorrect French translation fell into the hands of the celebrated Buffon, who, notwithstanding the disadvantages under which the work labored, was much pleased with it, and repeated the experiments with success. He prevailed on his friend, M. Dalibard, to give his countrymen a more correct translation of the works of the American electrician. This contributed much toward spreading a knowledge of Franklin's principles in France. The King, Louis XV, hearing of these experiments, expressed a wish to be a spectator of them. A course of experiments was given at the seat of the Duc d'Ayen, at St. Germain, by M. de Lor. The applause which the King bestowed upon Franklin excited in Buffon, Dalibard, and De Lor an earnest desire of ascertaining the truth of his theory of thunder-gusts. Buffon erected his apparatus on the tower of Montbar, M. Dalibard at Marly-la-Ville, and De Lor at his house in the Estrapade at Paris, some of the highest ground in that capital. Dalibard's machine first showed signs of electricity. On May 16, 1752, a thunder-cloud passed over it, in the absence of M. Dalibard, and a number of sparks were drawn from it by Coiffier, joiner, with whom Dalibard had left directions how to proceed, and by M. Paulet, the prior of Marly-la-Ville.
"An account of this experiment was given to the Royal Academy of Sciences, by M. Dalibard, in a memoir dated May 13, 1752. On May 18th, M. de Lor proved equally as successful with the apparatus erected at his own house. These philosophers soon excited those of other parts of Europe to repeat the experiment; among whom none signalized themselves more than Father Beccaria, of Turin, to whose observations science is much indebted. Even the cold regions of Russia were penetrated by the ardor for discovery. Professor Richmann bade fair to add much to the stock of knowledge on this subject, when an unfortunate flash from his conductor put a period to his existence.
"By these experiments Franklin's theory was established in the most convincing manner.
"Besides these great principles Franklin's letters on electricity contain a number of facts and hints which have contributed greatly toward reducing this branch of knowledge to a science. His friend, Mr. Kinnersley, communicated to him a discovery of the different kinds of electricity excited by rubbing glass and sulphur. This was first observed by M. du Faye, but it was for many years neglected. The philosophers were disposed to account for the phenomena rather from a difference in the quantity of electricity collected, and even Du Faye himself seems to have at last adopted this doctrine. Franklin at first entertained the same idea, but upon repeating the experiments he perceived that Mr. Kinnersley was right, and that the _vitreous_ and _resinous_ electricity of Du Faye were nothing more than the _positive_ and _negative_ states, which he had before observed, and that the glass globe charged positively, or increased, the quantity of electricity on the prime conductor, while the globe of sulphur diminished its natural quantity, or charged negatively. These experiments and observations opened a new field for investigation, upon which electricians entered with avidity; and their labors have added much to the stock of our knowledge.
"Franklin's letters have been translated into most of the European languages, and into Latin. In proportion as they have become known, his principles have been adopted."
In speaking of the first publication of his papers on electricity, Franklin himself says: "Obliged as we were to Mr. Collinson for the present of the tube, etc., I thought it right he should be informed of our success in using it, and wrote him several letters containing accounts of our experiments. He got them read in the Royal Society, where they were at first not thought worth so much notice as to be printed in their _Transactions_. One paper, which I wrote to Mr. Kinnersley, on the sameness of lightning with electricity, I sent to Mr. Mitchel, an acquaintance of mine, and one of the members also of that society, who wrote me word that it had been read, but was laughed at by the connoisseurs. The papers, however, being shown to Dr. Fothergill, he thought them of too much value to be stifled, and advised the printing of them. Mr. Collinson then gave them to Cave for publication in his _Gentleman's Magazine_, but he chose to print them separately in a pamphlet, and Dr. Fothergill wrote the preface. Cave, it seemed, judged rightly for his profession, for by the additions that arrived afterward they swelled to a quarto volume, which has had five editions and cost him nothing for copy-money."
The following is an extract from the preface to the first edition of the pamphlet published by Cave, as above mentioned:
"It may be necessary to acquaint the reader that the following observations and experiments were not drawn up with the view to their being made public, but were communicated at different times, and most of them in letters, written on various topics, as matter only of private amusement.
"But some persons to whom they were read, and who had themselves been conversant in electrical disquisitions, were of opinion they contained so many curious and interesting particulars relative to this affair, that it would be doing a kind of injustice to the public to confine them solely to the limits of a private acquaintance.
"The editor was therefore prevailed upon to commit such extracts of letters and other detached pieces as were in his hands to the press, without waiting for the ingenious author's permission so to do; and this was done with the less hesitation, as it was apprehended the author's engagements in other affairs would scarce afford him leisure to give the public his reflections and experiments on the subject, finished with that care and precision of which the treatise before us shows he is alike studious and capable."
Dr. Priestley, in his _History of Electricity_, published in the year 1767, gives a full account of Franklin's experiments and discoveries.
"Nothing was ever written upon the subject of electricity," he says, "which was more generally read and admired in all parts of Europe than these letters. There is hardly any European language into which they have not been translated; and, as if this were not sufficient to make them properly known, a translation of them has lately been made into Latin. It is not easy to say whether we are most pleased with the simplicity and perspicuity with which these letters are written, the modesty with which the author proposes every hypothesis of his own, or the noble frankness with which he relates his mistakes, when they were corrected by subsequent experiments.
"Though the English have not been backward in acknowledging the great merit of this philosopher, he has had the singular good-fortune to be, perhaps, even more celebrated abroad than at home; so that, to form a just idea of the great and deserved reputation of Dr. Franklin, we must read the foreign publications on the subject of electricity, in many of which the terms Franklinism,' 'Franklinist,' and the 'Franklinian System' occur in almost every page. In consequence of this, Dr. Franklin's principles bid fair to be handed down to posterity as equally expressive of the true principles of electricity, as the Newtonian philosophy is of the system of nature in general."
The observations and theories of Franklin met with high favor in France, where his experiments were repeated and the results verified to the admiration of the scientific world. In the year 1753 his friend Peter Collinson wrote to him from London: "The King of France strictly commands the Abbé Mazéas to write a letter in the politest terms to the Royal Society, to return the King's thanks and compliments, in an express manner, to Mr. Franklin, of Pennsylvania, for his useful discoveries in electricity, and the application of pointed rods to prevent the terrible effect of thunder-storms." And the same Mr. Collinson wrote as follows to the Reverend Jared Eliot, of Connecticut, in a letter dated London, November 22, 1753: "Our friend Franklin will be honored on St. Andrew's Day, the 30th instant, the anniversary of the Royal Society, when the Right Honorable the Earl of Macclesfield will make an oration on Mr. Franklin's new discoveries in electricity, and, as a reward and encouragement, will bestow on him a gold medal." This ceremony accordingly took place, and the medal was conferred.
"PHILADELPHIA, 28 Mch., 1747. "_To Peter Collinson_: